Abstract: A card processing device may include a card reader and a printer. The printer may include an ink ribbon cartridge; a thermal head; and a cover member. The ink ribbon cartridge may include a supply roll and a take-up roll. The thermal head may heat the ink ribbon and transfer ink to the card. The card reader may be on a front side of the thermal head, and a part of the card reader may be on a lower side of the supply roll or the take-up roll. The cover member may pivot between a closed position and open position. A conveyance path may be provided inside the card reader and the printer. A part of the conveyance path inside the card reader may be a first conveyance path. The card reader may include an upper frame. The upper frame may pivot between a closed position and open position.
Abstract: A card reader for use with a card having a magnetic stripe may include a card insertion port; a card passage through which the card inserted from the card insertion port passes, the card passage being connected to the card insertion port; a magnetic head configured to perform at least one of: recording magnetic data to the magnetic stripe of the card and reading magnetic data from the magnetic stripe of the card; a capacitive sensor provided in contact with the card passage; and a movable structure structured such that a distance to the capacitive sensor is variable. The capacitive sensor may include a plurality of regions, each of the plurality of regions being structured to detect a capacitance, and a switch circuit configured to electrically connect and disconnect each region of the plurality of regions.
Abstract: A drive device includes a drive part and a movable member structured to be moved by the drive part. The movable member includes a main body part and a support part which supports a supported member. The support part includes an elastic support part which urges the supported member and a fixed support part which is provided so as to face the elastic support part in a moving direction of the movable member and supports the supported member urged by the elastic support part. The elastic support part includes an elastic support part side protruded part which is a convex curved face protruded to a side to be abutted with the supported member, and the fixed support part includes a fixed support part side protruded part which is a convex curved face protruded to a side to be abutted with the supported member.
Abstract: A rotation transmission mechanism may include a drive wheel structured to rotate to one side, a driven wheel turned by the drive wheel to one side, and an urging member urging the driven wheel to turn to the other side. The drive wheel may include a drive teeth forming part where drive teeth structured to turn the driven wheel to the one side are provided at positions different from each other in an axial line direction, and a cam face forming part on which the driven wheel is slid. The driven wheel is provided with a driven teeth forming part where driven teeth provided at positions different from each other in an axial line direction are disposed over an angular range so that, when the drive wheel is turned to the one side, the drive teeth are sequentially abutted with the driven teeth.
Abstract: A valve drive device comprising a valve body drive mechanism including a drive gear, a driven gear for turning the valve body, and a power transmission switching part provided with a protruded part of the drive gear and a turning restriction part turnably attached to the driven gear. The turning restriction part comprises a lever part urged with an urging force toward an outer side of the driven gear. The driven gear comprises a lever turning restriction part for restricting turning of the lever part and the lever part is structured to perform a contact operation with the protruded part and a separating operation separated from a contact position with the lever turning restriction part. The valve body drive mechanism further comprises a foreign matter entry restraining part which covers at least a part of a region formed between the lever part and the lever turning restriction part.
Abstract: A valve drive device comprising a valve body drive mechanism including a drive gear, a driven gear for turning the valve body, and a power transmission switching part provided with a protruded part of the drive gear and a turning restriction part turnably attached to the driven gear. The turning restriction part includes a lever part which is provided with a first contact part structured to contact with the protruded part when the drive gear is turned to a first direction and a second contact part structured to contact with the protruded part when the drive gear is turned to an opposite direction to perform a separating operation from a contact position with a lever turning restriction part. The second contact part is formed in a shape having an interference avoiding part on a side of the first contact part.
Abstract: A card collection may include a box-shaped card storing portion having an open top, in which the collected cards are stacked. The the card storing portion may include a front portion configuring, a rear portion configuring, two side portions, and a plate-shaped placement board having a placement surface on which the cards are to be placed. The placement surface is inclined upward toward a front side. A rear end of the placement board is connected to the rear portion, a front end of the placement board is separated from the front portion and at least front portions at the left and right ends of the placement board are separated from the side portions, and the placement board, the front side of which moves in the top-bottom direction, can be elastically deformed.
Abstract: A conveyance mechanism capable of attaining high conveyance performance and protecting a conveyance object and a mechanism itself, a medium processing device and a conveyance method using the conveyance mechanism are provided to solve the problem. The conveyance mechanism includes a conveyance passage which is a passage where a conveyance object is conveyed, a conveyance member moving the conveyance object along the conveyance passage, a motor driving the conveyance member, a control part controlling an output torque of the motor, a conveyance state identifying means identifying a conveyance state that is a position and/or a conveyance direction of the conveyance object in the conveyance passage, and a storage part which upper limit torque information which is an upper limit value of an output torque allowable for the motor or a parameter value required for calculation of the upper limit value is registered for each type of the conveyance state.
Abstract: An optical unit may include a movable body including a holder which holds an optical module on its inner side; a fixed body which swingably supports the movable body through a support mechanism; and a shake correction drive mechanism structured to swing the movable body. An end part on one side in an optical axis direction of the fixed body may be structured to be an opened end. The movable body may include a protruded part which is protruded to the one side in the optical axis direction through the opened end. The fixed body may include a swing restriction part at the opened end which is configured to abut with the protruded part when the movable body is swung to restrict a swing range of the movable body.
Abstract: An optical unit with a shake correction function include a movable body having an optical element, a swing support mechanism swingably supporting the movable body between a reference posture and a tilted posture, a fixed body supporting the movable body through the swing support mechanism, a magnetic swing drive mechanism structured to swing the movable body, and a posture return mechanism structured to return the movable body to the reference posture. The magnetic swing drive mechanism includes a coil and a magnet, the magnet is polarized and magnetized to have different magnetic poles in an axial line direction, the posture return mechanism includes the magnet and a magnetic member attached to a side to which the coil is fixed, and a center of the magnetic member is overlapped with a magnetizing polarized line of the magnet when the movable body in the reference posture is viewed in a radial direction.
Abstract: In a magnetic drive circuit of an actuator, a first yoke and a second yoke are disposed on both sides in a first direction across a coil, and a first magnet and a second magnet are fixed to the first yoke and the second yoke. The first yoke includes a first connecting plate part and a second connecting plate part that extend toward the second yoke. Thus, welding of the first connecting plate part and the second yoke and the second connecting plate part and the second yoke can be efficiently performed on a different side in the first direction (a side where the second yoke is located).
Abstract: In the actuator, the viscoelastic members are arranged at positions at which the support body and the movable body face each other in the first direction, and the magnetic drive circuit drives the movable body in the second direction which crosses the first direction. The viscoelastic members connect the movable body and the support body together while having the thickness direction thereof in the first direction and extending in the second direction. Therefore, resonance caused when the movable body is vibrated can be restricted. Reproducibility of vibration acceleration corresponding to the input signals can be improved by utilizing the spring elements of the viscoelastic members in the shearing direction, thus enabling the actuator to vibrate with delicate nuances. Further, the viscoelastic members can be prevented from being pressed in the thickness direction and greatly deformed, therefore, preventing the gap between the movable body and the support body from greatly varying.
Abstract: In the actuator, the first end plate part of the first cover member in the support body is layered on one side in the first direction of the holder and faces the first yoke of the movable body from one side in the first direction. The second end plate part of the second cover member in the support body is layered on the other side in the first direction of the holder and faces the movable body from the other side in the first direction. Thus, the first viscoelastic member interposed between the movable body and the first end plate part in the first direction properly contacts with the movable body and the first end plate part. The second viscoelastic member interposed between the movable body and the second end plate part in the first direction properly contacts with the movable body and the second end plate part.
Abstract: A rotor may include a rotation shaft, a magnet on an outer peripheral side, a holding member holding the rotation shaft and the magnet, and a plurality of recessed parts provided in an end face of the magnet in an axial line direction of the rotation shaft so as to be separated from each other in a circumferential direction. A surface of each of the recessed parts is formed in a spherical shape, the holding member has a flange portion which covers the end face of the magnet from an end on an inner peripheral side of the end face of the magnet to an outer peripheral side with respect to the plurality of the recessed parts, and the flange portion is adhered to the surfaces of the recessed parts.
Abstract: To provide an ice making device in which a drive unit causes an ice making tray to perform a twist operation, and even if a penetration part through which a wiring that extends from the drive unit is drawn from the inside to the outside is provided in a side plate of a frame, it is possible to prevent damage to the side plate. An ice making device is provided. In the ice making device, an ice making tray and a drive unit are supported by a frame. In the frame, in a first side plate, a plurality of attachment parts for installing the frame to a refrigerator main body and a penetration part penetrating through the first side plate in the first direction are provided. The penetration part is provided in the first side plate on the other side relative to the attachment part furthest on one side in the first direction.
Abstract: An optical unit with a shake correction function may include an optical module comprising an optical element; a swing support mechanism structured to swingably support the optical module between a reference posture in which a preset axis and an optical axis are aligned, and an inclined posture in which the optical axis is inclined with respect to the axis; a holder structured to support the optical module via the swing support mechanism; a rotation support mechanism structured to rotatably support the holder around the axis; a fixed body structured to support the holder via the rotation support mechanism; a swing magnetic drive mechanism structured to swing the optical module; and a rolling magnetic drive mechanism structured to rotate the holder. The rotation support mechanism may include a rotation bearing that supports the holder on a subject side of the swing support mechanism.
Abstract: An input device (100) has an input unit (1) provided with a touch panel (13), a frame (2) that surrounds the outer periphery of the input unit (1), and an actuator (3) that causes the input unit (1) to vibrate in the X direction. The input unit (1) and the frame (2) are configured such that even if the relative positions of the frame (2) and an outer periphery (5), which face each other in the in-plane direction of the touch panel (13), were to change due to the vibration of the input unit (1), this change tends not to be perceived as a visual change by a user, making it difficult to perceive the movement.
Abstract: A valve device is provided. In the valve device, a valve element is rotated about a support shaft, based on rotation of a valve element drive member to switch a through hole that communicates with an outlet formed in a valve seat to adjust a flow rate. The through hole opens in a bottom surface of a flow channel securing groove formed in the valve element. The flow channel securing groove has a long hole shape in which a width in a first direction being a moving direction of the valve element, is smaller than a width in a second direction orthogonal to the first direction. Thus, a region overlapping with the outlet is large as compared to a case where a perfect circular flow channel securing groove is formed.
Abstract: A bearing assembly unit (5) includes an outer holder (10) configured with a cylindrical member; an inner holder (20) that is configured with a cylindrical member, and inserted into an inner circumferential surface of the outer holder (10) so as to be movable in an axial direction; and a rolling bearing element (30) which is inserted into an inner circumferential section of the inner holder (20) so as to be fixed at least in a circumferential direction, and into which a shaft (40) is inserted so as to be fixed there; wherein, between the outer holder (10) and the inner holder (20), there is provided a rotation restriction mechanism (12, 22) that prevents a relative rotation between the outer holder (10) and the inner holder (20).
Abstract: A card feed-out device may include a card housing; a feed-out claw; a claw feed mechanism; a gate member; and a gate moving mechanism. A front opening is formed in a lower end of a front surface of the card housing. A lower opening is formed in a front end of a lower surface portion of the card housing. The gate member may include a front surface and a bottom surface. The gate may be formed between a lower end surface of the front surface and a top surface of the bottom surface. During standby, the gate member is at a retracted position. When the first card is fed out, the gate member moves until at least a part of the bottom surface passes through an upper end of the lower opening, and a lower surface of the gate is disposed above the top surface of the housing bottom surface.